RCMA-E: A Dual-Resonator Differential Standing-Wave Architecture for Investigating Hypothetical Quantum-Substrate Energy Coupling

RCMA-E: A Dual-Resonator Differential Standing-Wave Architecture for Investigating Hypothetical Quantum-Substrate Energy Coupling Description / Abstract This paper presents an exploratory experimental concept developed within the Resonant Cavity Mutation Architecture (RCMA) framework, investigating whether artificially established standing-wave structures may exhibit measurable electromagnetic interactions associated with a hypothesized underlying quantum substrate. The proposed RCMA-E Quantum Energy Sieve employs two independently excited, 13-stage resonant cascades designed to establish unequal populations of spatially stationary, nucleus-scale standing-wave envelopes within their terminal interaction channels. These hypothetical structures are intended to approximate selected geometric characteristics of atomic nuclear interaction regions without requiring conventional baryonic constituents. The central hypothesis proposes that unequal populations of these resonant envelopes may establish differential field-coupling conditions within an underlying quantum substrate. The apparatus incorporates controlled phase relationships, including 180-degree phase opposition, together with an externally applied DC bias and variable electrical load to investigate whether measurable charge transport or energy transfer can be established between the two terminal structures. A progressive experimental methodology is outlined to characterize resonant behavior, differential electrical response, load-dependent energy transfer, and the possible persistence of electrical output following modification or removal of the initial DC bias. Particular emphasis is placed on independent measurement of all conventional energy inputs, including RF excitation, DC bias, stored electromagnetic energy, and associated system losses. Any apparent excess energy would require rigorous investigation, uncertainty analysis, and independent replication before attribution to quantum-vacuum or substrate interactions. The proposed apparatus and underlying physical mechanisms remain hypothetical. No experimental demonstration of nucleus-like standing-wave envelopes, anomalous substrate coupling, or net energy generation is claimed. The objective of this publication is to document a speculative but experimentally framed research direction, identify falsifiable questions, and encourage critical scientific examination of resonant field geometries, differential electromagnetic interactions, and their possible implications for fundamental physics and future energy research.